Transforming Spatial Biology With Next Generation Immunohistochemistry Using AI

Our core platform technology virtualizes the IHC process to predict biomarker expression spatially and quantitatively, transforming this 24+ hour process into mere seconds

Our technology virtualizes the IHC process using AI deep learning to predict biomarker expression spatially and quantitatively. Using our platform, we are able to train an algorithm to each biomarker, providing individual per-cell prediction of biomarker expression. This can be done for any biomarker, any disease area, and any species.

Virtual Biomarker

Example: Invasive Ductal Carcinoma, Positive for Biomarker ER

H&E or Hematoxylin and eosin stain of breast cancer tissue section containing cancerous cells

H&E Stain, Lab Processed

Expected ER Positive

Traditional IHC or Immunohisochemistry slide image showing biomarker positivity or Estrogen Receptor Biomarker within cancerous breast cancer tissue

Physical IHC, Lab Processed

Confirmed ER Positive

ViewsML’s Virtual IHC technology showing spatial expression of biomarkers on breast cancer tissue after processing an H&E stained slide

Virtual IHC, ViewsML

Confirmed ER Positive

Our AI model achieves 90% concordance with reference to physical IHC by way of cell to cell localization of biomarker expression.

Virtual IHC Allows for

Instant Per-Cell Biomarker Localization

Spatial Biology with Virtual Multiplexing

Virtualization of Clinical Diagnostic Assays

Advantages of Virtual IHC

Virtual IHC eliminates time and cost constraints associated with traditional IHC

Virtual IHC staining preserves scarce tissue samples

Eliminates the use of costly reagents and laboratory infrastructure

Consistent and reproducible immunostaining, every time

Increased use of biomarkers allows for greater characterization of samples

May be trained to any biomarker across any disease type and species

Accelerate Biomarker Detection